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JWST Telescope Uncovers a Monster Black Hole in the Early Universe

Нові відкриття JWST вказують на наявність величезної чорної діри в початкових етапах розвитку Всесвіту. Photo: НВ — Техно

The Discovery of Abell2744-QSO1

Classified as a tiny red dot, the object Abell2744-QSO1 was found inside a minuscule galaxy that existed just 700 million years after the Big Bang. Leveraging the James Webb Space Telescope and gravitational lensing, scientists have for the first time directly measured the mass of this entity. The data reveals a black hole weighing 50 million solar masses—an unusually large proportion relative to its host galaxy, which spans only 1,300 light-years across.

This marks the first-ever mass measurement of such an object within the first billion years of cosmic history. The analysis was carried out using the NIRSpec instrument, enabling a detailed examination. The findings were published in Nature and the Monthly Notices of the Royal Astronomical Society on May 29, 2026.

New Horizons in Astronomy

Researcher Roberto Maiolino remarked: 'This discovery completely overturns classical models of cosmic structure formation, showing that black holes can outpace their own galaxies in development.'

This breakthrough reshapes our understanding of the early universe and galactic evolution. Detecting such a massive black hole at such an early stage challenges traditional models, which assumed galaxies would form first, with black holes emerging later.

Studying objects like Abell2744-QSO1 could further unlock mysteries of the universe’s formation and the evolution of its components.

  • Detection of a black hole in the early universe.
  • Large-scale investigations using NIRSpec.
  • Publications in leading scientific journals.

An artist’s impression of a cluster of black holes (Credit: ESA/Hubble, N. Bartmann) illustrates this major scientific advancement.

This groundbreaking discovery not only sheds light on the early universe but also aligns with recent advancements in astrophysics, such as the identification of gravitational wave signals. Such findings collectively deepen our understanding of cosmic phenomena and the intricate relationship between black holes and galaxy formation.